Towards Generalizable Robotic Data Flywheel: High-Dimensional Factorization and Composition
Yuyang Xiao, Yifei Zhou, Haoran Wang, Wenxuan Ou, Yuxiao Liu

TL;DR
This paper introduces F-ACIL, a framework that decomposes robotic data into structured factors to improve data efficiency and generalization, achieving significant performance gains with fewer demonstrations.
Contribution
F-ACIL is a novel factor-aware compositional learning framework that enables structured data factorization and promotes generalization in robotic models.
Findings
Achieves over 45% performance improvement
Uses 5-10 times fewer demonstrations
Demonstrates effective structured factorization
Abstract
The lack of sufficiently diverse data, coupled with limited data efficiency, remains a major bottleneck for generalist robotic models, yet systematic strategies for collecting and curating such data are not fully explored. Task diversity arises from implicit factors that are sparsely distributed across multiple dimensions and are difficult to define explicitly. To address this challenge, we propose F-ACIL, a heuristic factor-aware compositional iterative learning framework that enables structured data factorization and promotes compositional generalization. F-ACIL decomposes the data distribution into structured factor spaces such as object, action, and environment. Based on the factorized formulation, we develop a factor-wise data collection and an iterative training paradigm that promotes compositional generalization over the high-dimensional factor space, leading to more effective…
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Taxonomy
TopicsDomain Adaptation and Few-Shot Learning · Machine Learning in Healthcare · Ferroelectric and Negative Capacitance Devices
